1 option
Salt Stress Responses in Plants.
EBSCOhost Academic eBook Collection (North America) Available online
EBSCOhost Academic eBook Collection (North America)- Format:
- Author/Creator:
- Series:
- Language:
- English
- Subjects (All):
- Physical Description:
- 1 online resource (454 pages)
- Other Title:
- Salt Stress Responses in Plants
- Place of Publication:
- New York : Nova Science Publishers, Incorporated, 2021.
- Summary:
- "Intense farming and irrigation practices are the important causes of salinity which limit plant growth and productivity. Salinity has now impacted 6 % of the total and 33 % of the irrigated land. The severest salinity problem has arisen in semiarid or arid lands when they were subjected to excessive irrigation which turned hundreds of hectares of cultivated fertile lands into saline lands. When a change in salinity around the environment of a plant exceeds to a certain threshold level, the morphology and physiology of the plants are affected. This book emphasizes the menace of salinity in agriculture and crop production. It encompasses various studies on plants sensitive to salt (glycophytes) and tolerant to salt (halophytes). This book includes diversity of glycophytes and halophytes, effects of salinity on different stages of growth and development, ion homeostasis and cellular ion transport, their photosynthetic responses, effects on biological nitrogen fixation, redox regulation and phytohormonal adjustment, significance of mineral nutrients in combating salinity in food crops. The most significant feature of the present book is its extensive coverage of genomics, metabolomics, ionomics, proteomics and transcriptomics approach which provide a better understanding towards salt and its interaction with plants. This book is beneficial for the students of stress physiology, environmental sciences, agronomy, life sciences and crop sciences at university level"-- Provided by publisher.
- Contents:
-
- Intro
- Contents
- Preface
- Acknowledgments
- Chapter 1
- Halophytes: Definition and Classification
- Abstract
- Introduction
- 1. Definition of Halophytes
- 2. Classification of Halophytes
- Conclusion
- References
- Chapter 2
- Plant Response to Salt Stress: Effect on Growth and Tolerance Mechanisms
- 1. Introduction
- 2. Effects of Salinity on Germination and Seedling Growth
- 3. Seed Germination Response to Salinity Stress
- 4. Physiological Impact of Salinity on Seed Imbibition, Cell Turgor and Water Relation
- 5. Ion Homeostasis and Cellular Ion Transport Under Salinity Stress
- 6. Morphological and Anatomical Responses Under Salinity Stress
- 7. Root System as a Close - Range Interface to Plant Morphology
- 8. Shoot System as Agronomic Traits under Salinity
- 9. Leaf Anatomy and Morphology under Salinity
- 10. Spatial and Architectural performance
- 11. Impact of Salinity on Cellular Respiration and Energy Output
- 12. Plant Stress, ROS and RNS Production
- 13. Enzymatic and Non-Enzymatic Antioxidant Defence System
- 14. Salinity Stress and the Osmoregulatory Components
- 15. Salinity Stress Sensing: Role of Proteins and Transporters
- Conclusion and Future Perspective
- Chapter 3
- Photosynthetic Responses of Plants against Salt Stress
- Abbreviations
- 2. Photosynthesis and Electron Transport System in Plants
- 3. Effect of Salt Stress on Photosynthesis
- 3.1. Effect of Salinity on Photosynthetic Pigment
- 3.2. Effect of Salinity on Photosynthetic Electron Transport Reactions
- 3.3. Effect of Salinity on Photophosphorylation and CO2 Fixation
- 4. Stress Tolerance Mechanism in Response to Salt Stress
- 4.1. Ion Homeostasis and Compartmentalization
- 4.2. ROS Scavenging and Antioxidative Enzymes.
- 4.3. Hormonal Regulation in Response to Salinity
- 4.4. Modification in Photosynthesis Pathway
- 4.5. Stress Signaling and Molecular Mechanisms against Salinity
- Conclusion and Future Perspectives
- Chapter 4
- Photosynthetic Responses and Tolerance Mechanism of Crop Plants against Salt Stress
- Effects of Salt Stress on Photosynthesis
- Effects on Stomata
- Effects on Chloroplast
- Effect on Photosynthetic Pigments
- Effects on Chlorophyll Fluorescence
- Effects on Light-Independent Reaction
- Salt Tolerance Mechanism in Plants
- Osmotic Tolerance
- Ionic Tolerance (Na+Exclusion)
- Tissue Tolerance
- Chapter 5
- ROS and RNS as Key Players of Salt Stress Response in Plants
- 2. Types of Stress
- 3. What Is Salt Stress?
- 4. Salt Stress Perception by the Plants
- 5. Response of Plants Under Salinity Stress
- 5.1. Generation of Reactive Oxygen Species
- 5.2. Chloroplast
- 5.3. Mitochondria
- 5.4. Peroxisomes
- 5.5. Other Sources
- 6. ROS Scavenging System and Salt Tolerance in Plants
- 6.1. Chloroplast
- 6.2. Mitochondria
- 6.3. Peroxisomes
- 6.4. Apoplast
- 7. Salt Stress Sensors
- 7.1. ROS Signal Perception and Sensing during Salt Stress
- 7.2. Osmotic Stress Signaling
- 7.3. Ion Homeostasis under Salt Stress
- 8. Ion Homeostasis under Salt Stress
- 8.1. Sequestration in Vacuoles
- 8.2. Long-Distance Transport of Sodium
- 9. Signaling Pathways of ROS Detoxification
- 10. Reactive Nitrogen Species
- 10.1. Generation of Reactive Nitrogen Species
- 11. Enzymatic Production of Nitric Oxide
- 11.1. Nitrate Reductase
- 11.2. Nitrite: NO Reductase
- 11.3. Electron Transport System
- 11.4. NOS Like Enzyme
- 11.5. Other Sources of Nitric Oxide.
- 12. Reactive Nitrogen Species Signaling
- 12.1. SOS Pathway
- 12.2. MAPK Dependent Pathway
- 12.3. Calcium-Dependent Pathway
- 12.4. G-Protein Signaling
- 12.5. Involvement of NO Signaling in Salt Stress
- Chapter 6
- Impact of Salinity Stress on Biological Nitrogen Fixation of Terrestrial Plants
- 2. Impact of Salinity on Nitrogen Fixation
- 2.1. Nitrogen Fixation in Terrestrial Plants
- 2.2. Leguminous-Symbiotic Interaction and Nitrogen Fixation
- 2.3. Impact of Salinity on Nitrogen Fixation of Leguminous Plant
- 2.4. Effect of Salinity on Nitrogen Fixation of Actinorhizal Plant
- 3. Mechanism of Salinity Impact on Nitrogen Fixation
- Chapter 7
- Salt Stress in Plants: From Gene to Biotechnology
- 2. Environmental Stress: Diversification of Genome
- 3. Microorganisms: Best Partner of Plants in Challenging Environment of Salinity
- 4. Genomic Efforts for Enhancing the Salt Tolerance in Plants
- Chapter 8
- Genomics, Physiology and Molecular Breeding Approaches for Improving Crop Productivity under Salt Stress: Progress and Prospects
- 2. Physiological and Biochemical Mechanisms of Salt Tolerance
- 2.1. Ion Homeostasis and Its Role in Salt Tolerance
- 2.2. Compatible Osmolytes Accumulation
- 2.3. Role of Antioxidant in Stress Mitigation
- 2.4. Role of Phytohormonesin Mitigating the Harmful Effects of Salinity
- 3. Screening and Selection for Salt Tolerance
- 4. Conventional Breeding Approach (Approaches for Crop Improvement)
- 5. System Biology Approach
- 5.1. Phenomics
- 5.2. Transcriptomic Approach to Enhance Tolerance to Salt Stress
- 5.3. Proteomics
- 5.4. Metabolomics Approach
- 5.5. Genome editing Approach.
- 5.6. Soil Metagenomics in Salinity Management
- 6. Bioengineering (Transgenic) Approach for Improving Salinity Tolerance (Bioengineering Plants for Improving Salinity Tolerance)
- 6.1. Transforming Single Gene for Conferring Salt Stress Tolerance
- 6.1.1. Manipulating Genes Encoding Osmoprotectants
- 6.1.2. Engineering LEA Proteins for Salt Tolerance
- 6.1.3. Genetic Engineering of Genes Involved in Signaling Pathway
- 6.1.4. Transgenic Plants Designed to Overexpress Antioxidant Enzymes
- 6.1.5. Engineering Salt Stress Tolerance in Plants by Expressing TFs
- 6.1.6. Alleviating Salt Stress by Engineering Heat Shock Proteins
- 6.1.7. Salt Tolerance Conferred by Ion Transporter Gene Transformation
- 6.2. Generating Salt Tolerant Transgenic Plants Using Stress Inducible Promoter
- 6.3. Gene Pyramiding
- 6.4. miRNA Based Approach
- 6.5. Salt Stress-Tolerant Plants Developed Using CRISPR (Clustered Regularly Interspaced Short Palindromic Repeats)/Cas9 Technology
- Chapter 9
- Genomic and Molecular Aspects of Salt Tolerance and Accumulation
- 1. Abbreviations
- 2. Introduction
- 2.1. Genetic Responses to Salinity
- 2.2. QTL Mapping in Relation to Plant Salinity Tolerance
- 2.3. Transcriptional Regulation and Gene Expression
- 2.4. Effects of Disturbances in OGE on Salt Tolerance Capacity of Plants
- 2.5. Regulation of OGE Post Transcriptionally and Salt Stress Tolerance
- 2.6. Pentatricopeptide Repeat (PPRs) and Salt Stress Tolerance
- 2.7. Plant Organellar DEAD-Box RHs Role in Salinity Response
- 2.8. Alteration of Salt Tolerance due to Mutations in Plastid Ribosomal Protein PSRP2
- 2.9. Protection of Chloroplasts from Abiotic Stress by Arabidopsis SIG5
- 3. Transgenic Approach: Engineering Plants
- 3.1. Genes Involved in Transgenics
- 3.1.1. Genes Synthesizing Osmolytes.
- 3.1.2. Genes that Protect Cell Integrity (LEA-like Genes)
- 3.1.3. Genes Involved in Management of Oxidative Stress
- 3.1.4. Genes Involved in Ion Homeostasis Regulation
- 3.1.5. Transcription Factors
- 4. Salt Stress Tolerance through Halophytes
- Chapter 10
- Metabolite Approaches in Understanding Salt Stress in Plants
- 2. Metabolomics Status in Plants
- 2.1. Amino Acids
- 2.2. Proline
- 2.3. Glycine Betaine
- 2.4. Carbohydrates
- 2.5. Polyols
- 2.6. Antioxidants
- 2.7. Organic Acids
- 2.8. Polyamines
- 2.9. Phenolic Compounds
- 2.10. Alkaloids
- 2.11. Proteins
- Chapter 11
- Transcriptomic Studies and Characterization of Transcription Factors during Salt Stress
- 2. Next Generation Sequencing (NGS) Study of Salt Tolerance Strategies and Transcriptomes
- 3. Transcriptome Derived Screening of TFS Involved in Salt Stress
- 3.1. AP2/ERF Family
- 3.2. bZIP Class of Transcription Factors
- 3.3. NAC Family of Transcription Factors
- 3.4. MYB Family of Transcription Factors
- 3.5. WRKY Family of Transcription Factors
- 3.6. HSF Family of Transcription Factors
- 3.7. Dof Family of Transcription Factor
- 3.8. Homeodomain-Leucine Zipper Family of Transcription Factors
- Chapter 12
- Significance of Mineral Nutrients in Combating Salinity in Food Crops
- 2. Nature and Mechanism of Salt Stress
- 2.1. Plant Response to Saline Stress
- 2.2. Strategies
- 2.2.1. Silicon and Salt Tolerance
- 2.2.2. Calcium and Salt Tolerance
- 2.2.3. Potassium and Salt Tolerance
- 2.2.4. Zinc and Salt Tolerance
- 2.2.5. Selenium and Salt Tolerance
- Chapter 13.
- The Use of Plants and Associated Microorganisms in the Phytoremediation of Salt-Affected Soils.
- Notes:
- Description based on publisher supplied metadata and other sources.
- ISBN:
- 1-5361-9923-0
- OCLC:
- 1262373248
The Penn Libraries is committed to describing library materials using current, accurate, and responsible language. If you discover outdated or inaccurate language, please fill out this feedback form to report it and suggest alternative language.